A woven textile fabric that is lightweight, soft, smooth, supple and durable has a composition including a regenerated cellulosic fiber, cotton and an elastane fiber such as spandex. The fabric includes warp yarn and weft yarn, and the weft yarn is a core spun yarn made of an elastane fiber core surrounded by a sheath of blended regenerated cellulosic fiber and cotton. The fabric construction may range from about 44 ends/inch to about 300 ends/inch and from about 30 picks/inch to about 600 picks/inch. The warp count may range from 2 s count to 140 s count, and the weft count ranges from 2 s count to 170 s count. The fabric, which can be made using a series of innovative process steps, is particularly useful as a bed linen.

Technologies and implementations for stabilizing a wearable medical device (WMD) on a person. The technologies and implementations facilitate improved stability of adhesion and contact of the WMD on the person. Additionally, the technologies and implementations include length changeable support structure configured to help facilitate the improved stability.

Disclosed herein are spandex fibers having reduced friction. The spandex fibers have a sheath-core cross-section with a lubricating additive is included in the sheath. A fusing additive is optionally included where a coalesced multifilament spandex yarn is desired.

This disclosure relates to techniques for designing and manufacturing an elastic fabric, and fabric manufactures therefrom. An example method includes (i) determining a density ratio of the elastic fabric based on a set of rules; (ii) determining a weft density of a weft yarn of the elastic fabric based on the set of rules and the density ratio; (iii) determining a warp density of a warp yarn of the elastic fabric based on the density ratio, the weft density, and the set of rules; (iv) forming warp yarns of the elastic fabric based on the warp density; and (v) forming weft yarns of the elastic fabric based on the weft density. Example multi-directional elastic woven fabrics may have a density ratio of the elastic fabric from a range of 1.1 to 2.625, depending on the weaving pattern and a set of rules disclosed here.

The disclosure relates to an insert (5) made of a textile fabric for being received in a jacket wall of a cylindrical case (6) made of a combustible, felted fibrous material, wherein in particular embodiments the textile fabric includes one, several, or a plurality of yarns which along a longitudinal direction (L) of the insert form a plurality of mesh rows (18) which each include a plurality of meshes (19, 20, 21) that extend in a circumferential direction (U) of the insert.

A method includes the operating steps of providing a stretch twisted yarn including a plurality of single threads twisted together. A pair of mixed threads has substantially inextensible plant fibers mixed with water-soluble fibers, and an elastic single thread includes synthetic elastic fibers. The method further includes providing a further yarn, manufacturing a fabric through weaving by interlacing the twisted yarn with the further yarn, and dissolving the water-soluble fibers from the fabric.

A transaction within a computer program or computer application comprises program instructions performing multiple store operations that appear to run and complete as a single, atomic operation. The program instructions forming a current transaction comprise a transaction begin indicator, a plurality of instructions (e.g., store operations), and a transaction end indicator. A near-end of transaction indicator is triggered based on a speculative look ahead operation such that an interfering transaction requiring a halt operation may be delayed to allow the current transaction to end. A halt operation, also referred to as an abort operation, as used herein refers to an operation responsive to a condition where two transactions have been detected to interfere where at least one transaction must be aborted and the state of the processor is reset to the state at the beginning of the aborted transaction by performing a rollback.

In one aspect, a method of manufacturing a protective textile may include steps of (a) twisting a first yarn with a tungsten filament; and (b) using a second yarn to cover the yarn-tungsten product generated in step (a). The yarn generated in step (b) is further twisted with an elastic spandex. In one embodiment, the first yarn is selected from a group of Nylon, Polyethylene Terephthalate (PET), cotton yarn, bamboo fiber and Tencel. In another embodiment, a Polyethylene (PE) fiber is the second yarn, and the third yarn may include Nylon, PET or PE. The protective textile is advantageous because it is light, thin, soft and highly cut resistant. Also, it has great electrical conductivity and chemical stability, and it is not easy to deform after washing.

A filamentary core for an elastic composite yarn, particularly for an elastic textile composite yarn, comprising at least two elastic performance filaments, wherein each of the at least two elastic performance filaments is capable of being stretched at least about 2 times its package length and has at least 90% up to 100% elastic recovery after having being released from a stretching 2 times its package length.

Antimicrobial fiber blends including a chitosan-based fiber are disclosed. The fiber blends also include other fibers such as organic fibers, synthetic fibers, or a combination thereof. Yarns and textiles formed from the fiber blends and articles formed from the textiles are also disclosed.